EGYPTIAN IMPRINT IN SPAIN Lecture by Dr Abeer Zahana
PGRFA for mitigating climate change
1. Abdul GHAFOOR, PARC, Islamabad, PAKISTAN;
ghafoor59pk@yahoo.com
Potential of plant genetic resources in
sustainable agriculture in changing climate:
Strategies and management
2. Background
Plant genetic resources
Sustainable agriculture
Changing climate
Strategies and management
Agriculture and Food Security
Global program of research
Concluding remarks
Future avenues
Outline
4. Plant-human interaction.
World population > 7 billion (Food
security); 2100 population will be 10-
14 billion and global food production?
Plant based food by developing
countries is > 80%
Developed countries is < 40%,
converted to animal sources.
Consumption or
utilization of PGR is
imperative for healthy
and peaceful society;
Noble peace prize to
“Norman Ernest
Borlaug” (1914 – 2009)
Increased demand
45% by 2030 (IEA)
Energy
Water
Increased demand
30% by 2030
(IFPRI)
Food
Increased demand
50% by 2030
(FAO)
Climate
Change
1.Increasing population
2.Changing diets
3.Losing land to
urbanization and
rising sea levels
4 Climate change
5. Current status of biodiversity
> 300,000 edible plant species, 7,000 used for
human consumption, 400 plant species are
domesticated.
12 plant species contribute >75% of global
intake of plant-derived calories and three
(wheat, rice, and maize) contribute 60 %
calories and 56 % protein from plants.
> 20,000 species are used for MAPs, > 600
MAPs in Pakistan.
Biodiversity loss is a threat to food security.
75 % diversity lost during last century; Natural and
induced intervention, urbanization, crop
improvement, Commercial cultivation,
climate change
STILL GOING ON!
7. PGRFA
The only available resources for crop improvement
No nation is self-sufficient in PGRFA
Linearity with crop improvement
Green revolution
GMO
Future avenues (PGR utilization)
Climate change
Sustainable use
Genome editing
Diversification of crops
Healthy food security
Crops for Future, FSC; NUS
8. Challenges to PGR conservation and food
security
Human population growth, developing world!
Pollution, biotic and abiotic stresses
Habitat loss and degradation
Introduction of invasive alien species
Over-exploitation of bio-resources
Global climate change
Energy crisis
Poverty
Commercial trade
International trade of endemic species
Lack of awareness
9. Crop varieties with
better resistance to
biotic and abiotic
stresses ensured
food security in
Pakistan.
PGR flow in Pakistan for food security
19. 2030 Agenda for Sustainable Development
The 2030 Agenda for Sustainable Development, 17 SDG, 1
January 2016.
Genetic resources/seed are the priority areas of FAO under
Sustainable Development Goals, particularly for achieving SDG
1, 2, 3, 5, 12, 13, 15 & 17 directly or indirectly.
22. Climate-vulnerable developing countries with low incomes, hunger and
poverty will be the most affected
20 - 40% declines in overall agricultural productivity in case of >2 °C rise
Extreme events and migration of pests and diseases
Major driver of biodiversity loss, including genetic erosion
Inter-dependence among countries on PGRFA will increase
Genetic diversity will underpin adaptation to climate change in food and
agriculture. long-term efforts and investments are required
Bio-diverse agro-ecosystems improve resilience and energy efficiency
Community based management of agricultural biodiversity and crop
productivity is critical to local adaptation
But...Genetic diversity is still overlooked in the Climate Change
negotiations
Climate change, PGRFA and food security
24. Conserve PGRFA most threatened by climate change
Long-term program for characterization, evaluation and
breeding of climate-ready PGRFA and cultivars
Strengthen community based agricultural management along
with biodiversity management for adaptation
Develop ABS policies, particularly for endemic species
PBR Act and Seed Act Amendments
Integrate genetic diversity and food security in the climate
change negotiations
Dialogue between international forums and national agencies
Financial support to cope with climate change and encourage
conservation and use of genetic diversity
HRD
Strategies to cope with climate change
26. Global commitments and compliance
ITPGRFA, CBD, NP and has ratified Kyoto Protocol.
The PBR Act 2015 approved and Access to Genetic
Resources and Benefit-sharing Act, 2012 is under process.
Germplasm is being shared under SMTA for R & D.
PGRFA shared under SMTA, MLS and ITPGRFA, ABS not
yet in practice.
World Earth Day [April 22].
27. International undertaking on PGRFA
Protect the rapidly eroding genetic resources which
strengthen global and local food security.
Keep these genetic resources in the public domain and
facilitate access.
Ensure the implementation of Farmers’ Rights for a
reasonable share of the benefits from the commercial use of
these resources.
Global awareness
2010-2020: Decade of
Biodiversity
2010: Year of Biodiversity
2011: Year of Forests
2016: Year of pulses
2017: Year of tourism
2019: Year of millets
IFPRI’s 2020 Vision: A World Free from Hunger
Access to sufficient food for healthy life.
No malnutrition.
Food from efficient, effective, and low-cost
systems.
Food production compatible with
sustainable natural-resource use.
28. YEAR 2009 2011 2013 2015 2017
Plant
Genetic
Resources
Update of
The State
of the
World’s
PGR
Update of
Global Plan
of Action
PGR
Update of
The State of
the World’s
PGR
Genetic Resources, Food Security and Climate Change in FAO:
the Multi-year Programme of Work of the Commission
29. YEAR 2009 2011 2013 2015 2017
Cross-
sectorial
matters
ABS for
PGRFA
Application of
biotechnologies
in conservation
and sustainable
utilization of
GRFA
Climate
change and
genetic
resources for
food and
agriculture
Targets and
indicators for
biodiversity for
food and food
and agriculture
Ecosystem
approach to
biodiversity
management
in agriculture,
forestry and
fisheries
Biodiversity for
food and
agriculture and
the
achievement
of the MDG
Presentation
of The State of
the World’s
Biodiversity for
Food and
Agriculture
The Commission’s Multi-Year Programme of Work: Major Outputs and Milestone
30. 2030 Agenda for Sustainable Development
The 2030 Agenda for Sustainable Development, 17 SDG, 1
January 2016.
Genetic resources/agriculture are the priority areas of FAO
under Sustainable Development Goals, particularly for achieving
SDG 1, 2, 3, 5, 12, 13, 15 & 17 directly or indirectly.
32. Challenges for food security in climate
change scenario
PGRFA/CWR gap filling, evaluation and utilization?
Knowledge of inter and intra-specific diversity
Inter and intra-species relationships
Strong breeding program and funding sources
Research infrastructure
Pakistan scenario? CWR scope for developing
PGRFA resilience to climate change – use in pre-
breeding……
“Use of CWR is limited due to high complexity of
traits, time-duration, linkage of desirable genes with
undesirable ones”
33. Unlocking genetic potential of CWR for benefit of
the society under climate change
1.Diversity assessment
2.Novel techniques [somatic hybridization, anther culture, embryo
rescue]
3.Advanced biotechnology [MAB, MAS, Mapping, QTL, genomics]
4.Introgression libraries
5.Association studies
6.Genetic transformation
7.Genome editing
Resulting in nutritious food security particularly
under the climate change scenario
35. New era of CWR utilization
Utilization of CWR for stresses [heat, cold, drought,
waterlogging, salinity, diseases, pests, floods, allergens],
nutrition and quality
Climate change
Tracing ancestral phylogeny
Evolution and ethno-botany
Second generation food security
Expanding food basket
37. 20 - 40% declines in agricultural productivity, pests and
diseases
Climate change, major driver of biodiversity loss/genetic
erosion
PGR will be the only solution to address climate change
issues
Community based PGR management of agricultural
biodiversity is needed to support
Future avenues for climate resilience crop varieties in
problem soils
In-situ conservation in-line-with evolution and networking of
PGRFA stakeholders to address climate change issues
Trees, forest, animal, fisheries and microbial genetic
resources conservation
Aquatic plants, parasitic/hemi-parasitic plants conservation
Plant Product R & D (Extraction and analytical)
Food security in the era of climate change
38. Integrated approach for PGR utilization for
developing climate resilience crop varieties
Era of third generation biotechnology/genetic engineering.
Traits specificity, largely because of the complexity of traits,
i.e., socio-economic traits, allergens.
Genetic variants created and selected by nature over millions
of years and conserved in genebanks, however remained
untapped! Biotech has promise.
Utilization of the CWR plants in genebanks.
Molecular mapping and ability to scan the genomes of wild
species for new and useful genes.
Are we prepared to unlock the genetic potential of hidden bio-
treasurers in the genebanks including CWR.
Extensive academic, research and public-private partnership
39. Mainstreaming biodiversity for sustainable agriculture and
food security particularly in the era of climate change
Regional networking for PGRFA stakeholders and sharing of
information & PGRFA
R & D on CFF to ensure nutritious food security
Understanding SDGs and international policies
Joint venture on PGRFA evaluation, utilization and genebank
management
Multi-disciplinary team work
Work together to achieve happy healthy farmers and
ecosystems in the ONLY LIVING GLOGE
Awareness for all
Take-home message
41. Future programs to safeguard food security
Multi-sectorial approaches (Regional coordination)
Mainstreaming PGRFA and climate change in national
programs
Global/regional networks on PGRFA and R & D on CWR to
address climate change issues
Participatory breeding approach, monitoring and early warning
systems on disasters & genetic erosion
Interactive database on PGRFA management and utilization
Training, education and raising awareness
Inter-continental collaborative projects on PGRFA evaluation
and utilization to solve the global issue of climate change
42. Future prospects
Gap filling of CWR, collect, characterize, document,
utilize.
Emerging demand for novel genes for biotic & abiotic
stresses, quality, climate resilience and bio-fortification.
Genome mapping and synteny of the genes sequenced
for encoding abiotic stress tolerance and can be utilized in
crop improvement.
Potential of genetic transformation from the tertiary gene
pool and/or beyond.
Big data handling, new breeding strategies and
bioinformatics tools are required to use the information
from omics for complex traits more effectively.
CWR faced the maximum load of climate effects, hence
43. Gene-pools for climate change threatened, and how can they
be conserved to ensure their continuing availability?
How do cultural practices affect diversity and how can farmers’
knowledge be used to identify landraces and crop varieties
suited for specific climatic conditions?
How can access to crop diversity local farmers be facilitated?
How crop diversity in production systems contribute to
productivity in face of progressive climate change?
What are major causes and challenges of climate change?
Can agriculture stand up to a 2º C warmer world?
PGR threatened by climate change, what strategy to collect
and conserve?
CWR use on the increase, but poorly conserved ex-situ and
under threat in-situ
Need to fill gaps, and explore novel genetic approaches
Still unsolved
45. "Every time we lose a species we break a
life chain which has evolved over 3.5 billion
years"
(Jeffrey McNeely)
Hinweis der Redaktion
Significant production decreases are expected in regions that are already food insecure.
- Developing countries in Africa, Asia and Latin America could experience a decline of between 20 and 40 percent in overall potential agricultural productivity if temperatures rise by more than 2 °C.
Climate change will increase the variability of agricultural production across all areas.
- Extreme weather events will be more frequent, in particular droughts and floods, which are already the dominant causes of acute food shortages in in sub-Saharan Africa and parts of South Asia.
- The poorest regions with the highest levels of chronic undernourishment will also be exposed to the highest degree of instability in food production.
- Climate change is also altering the distribution and intensity of animal and plant pests and diseases in agriculture, livestock, aquaculture and forestry.
Agriculture, forestry and other land-use sectors: about 1/3 of global anthropogenic GHG emissions but also large technical mitigation potential (89 % of agriculture’s potential lies in soil and biomass carbon sequestration)
The following actions should be pursued:
Conservation and monitoring measures of the most threatened genetic diversity is urgently needed.
The value of genetic diversity to confront climate change can only be realized if we improve our knowledge and use of such diversity, which requires long-term and sustained investments on characterization, evaluation and breeding of genetic resources for adaptation to climate change.
Local management of agricultural biodiversity should include the strengthening of local institutions managing diversity and the development of practices to guarantee the provision of ecosystem services.
Access and benefit-sharing policies should consider the growing interdependence among countries for genetic resources for food and agriculture due to climate change. The CBD is currently negotiating an International Regime on Access and Benefit-Sharing to be finalized by 2010. The FAO Commission on Genetic Resources for Food and Agriculture has recently reiterated the need for adequate treatment of genetic resources for food and agriculture in the International Regime. The issue of ABS will be discussed by the FAO Conference, in the context of the Report of the Commission.
FAO is now integrating Genetic resources, food security and climate change into its intergovernmental agenda. With more 170 Member Countries, the Commission on Genetic Resources for Food and Agriculture is the FAO intergovernmental body specifically dealing with all biodiversity for food and agriculture.
The Commission has developed a 10-year Multi-Year Programme of Work (MYPOW) for all genetic resources for food and agriculture: plant; animal; forest; aquatic; microorganisms and invertebrates. The MYPOW also includes cross-sectorial matters such as CLIMATE CHANGE. The next slides, which I will show you rapidly, include the main MYPOW outputs and milestones.
The Commission has decided to give priority to Climate Change in its MYPOW, a major discussion will be held in next session of the Commission (CGRFA-13) in 2011.
Significant production decreases are expected in regions that are already food insecure.
- Developing countries in Africa, Asia and Latin America could experience a decline of between 20 and 40 percent in overall potential agricultural productivity if temperatures rise by more than 2 °C.
Climate change will increase the variability of agricultural production across all areas.
- Extreme weather events will be more frequent, in particular droughts and floods, which are already the dominant causes of acute food shortages in in sub-Saharan Africa and parts of South Asia.
- The poorest regions with the highest levels of chronic undernourishment will also be exposed to the highest degree of instability in food production.
- Climate change is also altering the distribution and intensity of animal and plant pests and diseases in agriculture, livestock, aquaculture and forestry.
Agriculture, forestry and other land-use sectors: about 1/3 of global anthropogenic GHG emissions but also large technical mitigation potential (89 % of agriculture’s potential lies in soil and biomass carbon sequestration)